June 12-17, 2022

PARTICLE
ACCELERATORPROJECTSAND UPGRADESBOOKLET

IPACC22

Particle Accelerator Projects
and Upgrades
For Indusrty Collaboration in the Field of Particle Accelerators

14th Edition

Complied by
Synchrotron Light Research Institute(Public Organization)

Introduction

IPACC22“For many years, the European Physical Society Accelerator Group (EPSAG) that organizes the IPAC series in
Europe has contacted major laboratories around the world to invite them to provide information on future accelerator projects and upgrades to exhibitors present at IPAC commercial exhibitions. This initiative has resulted in a series of booklets
that is available to industry at the conferences or online. This current edition builds on previous editions with updated
information provided by the laboratories and research institutes. We would also like to acknowledge and thank everyone
for contributing to this booklet in an effort to foster a closer collaboration between research and industry.”*
All of the information contained in this booklet is subject to confirmation by the laboratory and/or contact persons
for each project.

The past 2020 booklet still containing relevant information. We could update just part of it. Visit the site https://www.ipac20.
org/particle-accelerator-projects-and-upgrades/ to access this material.
Inquiries for this edition may be directed to:Inquiries for this edition may be directed to:Regis Terenzi Neuenschwander regis.terenzi@cnpem.br
Centro Nacional de Pesquisa em Energia e Materiais – CNPEM

IPACC22

Contents
Introduction

Project Region: Americas
BELLA 2nd Beamline and iP2

1
2

Status of the Advanced Photon Source Upgrade (APS-U) Project”

3

The Cornell-BNL ERL Test Accelarator (CBETA)

4The Proton Power Upgrade Project at the Spallation Neutron Source (SNS)5

Proton Power Upgrade Project6

Project Region: Asia

Australian Synchrotron BRIGHT beamline expansion

7
8

Australian Synchrotron Operational Upgrades

9

China Spallation Neutron Source

10

Establishment of Heavy lon Medical Accelerator

11

HIAF (High Intensity heavy ion Accelerator Facility)

12

Heavy Ion Research Facility at Lanzhou

13High Intensity heavy-ion Acelerator Facility

14

RAON

15

RIBF upgrade project16

Siam Photon Source-II (SPS-II) accelerator complex

17

Third RF station for storage ring of Taiwan Photon Source

18

Project Region: Europe
Diamond II

19
20

European Spallation Source (ESS)

21

Future Circular Collider (FCC) Feasibility Study

22

High Luminosity LHC (also: HiLumi LHC, HL-LHC)

24

IFMIF-DONES

25

MYRRHA (phase 1 – Implementation)

26

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Project Region:
AMERICAS

1

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BELLA 2nd Beamline and iP2
Project Location
Project Type

Project Description

United States of America
Accelerator Improvement Projects
Two projects are extending the capability of the BELLA Center facility to advancethe capability to develop Laser-Plasma Accelerators, based around the Center’s
Petawatt laser. The existing facility features a single long focal length laser
beamline which has been used to accelerate electrons up to 7.8 GeV, and protons
up to several MeV. The first project will enable splitting pf the laser pulse todeliver two independent pulses to the interaction point, supporting chaining of
two laser-plasma accelerator stages at the multi-GeV level. This will be a criticalstep in establishing that such accelerators can meet future collider needs. It
extends the existing program which is aligned to address the principal issues
for a future lepton or photon collider at or above the TeV scale, including
efficiency, beam quality, and energy gain. The second project will install a short
focal length interaction chamber on the system. This will enable testing of novel
ion acceleration regimes such as radiation pressure, to reach higher energies
and beam quality. The two projects will also create a versatile facility enablinga broad range of other experiments at high repetition rate and precision.

Requirements List Available

Yes

Approval Date

2018

Status of Contracting
Construction scheduled to start

2019

Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)3 years
Vacuum components, laser optics and compressors

Eric Esarey (PI), Cameron Geddes (Technical lead); Haris Muratagic (ProjectManager)

Affiliation

LBNL

e-mailehesarey@lbl.gov; cgrgeddes@lbl.gov

Contact Person(s)Affiliatione-mail2

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Status of the Advanced Photon Source Upgrade (APS-U) Project
Project Location
Project Type

United States of America
Advanced Photon Source Upgrade (APS-U) Project

Project Description

The APS-U Project replaces the existing 1.1-km circumference, 7-GeV electron
storage ring with a new very low emittance, 6- GeV 7BA lattice to increase
spectral brightness and transverse coherence for X-rays >10 keV by two to
three orders of magnitude. Nine state-of-the are X-ray beamlines will be built,
and enhancements made to 15 existing beamlines. New permanent magnet andsuperconducting undulators will be provided. While the present RF cavity system
will be preserved, virtually all other accelerator components will be replaced.
The replacement of the present klystron-based RF power sources with solidstate amplifiers is in process, but not included in the Project.

Requirements List Available

Yes, in an internal Final Design Report not readily accessible by the public.
Information can be provided on request.

Approval Date
Status of Contracting

Feb 02 2016>60% of contracts have been issued

Construction scheduled to start

Jul 25 2019

Estimated Project Cost

815 M USD

Estimated Construction Duration

4 years

Type of Equipment to be Purchased

Magnets, vacuum components, supports, power supplies, RF amplifiers for feedback
and bunch lengthening systems, diagnostics, X-ray beamline components andoptics, X-ray instrumentation and detectors, control system components, etc.

Project Leader(s)Robert Hettel (Director), Jim Kerby (Project Manager), Elmie Peoples-Evans(Deputy Project Manager)

Affiliation

Advanced Photon Source, Argonne National Lab

e-mailrhettel@anl.gov, jkerby@anl.gov, epeoplesevans@anl.gov

Contact Person(s)Jade Thomas

Affiliation

APS-U Projecte-mailjade.thomas@anl.gov

3

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The Cornell-BNL ERL Test Accelarator (CBETA)
Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)United States of America
New Project
The Cornell-BNL ERL Test Accelerator (CBETA) is a four-turn Energy Recovery
Linac (ERL) with a single return loop of Fixed- Field Alternating-gradient optics.
Using superconducting RF technology, permanent magnets, and energy recovery,
it is considered a green accelerator. I was construced at Cornell University incollaboration with BNL.
Yes
Oct 31 2016Low-current beam commissioning completed 2020, high- current commissioning
outstanding.
Jan 01 2017
Complete project with subcomponents: 57 M USD
Construction and low-current commissioning stage: 3.5 years
Permanent combine-fuction Halbach magnets, electromagnets, vacuum system,
power supplies, RF power amplifiers, beam diagnostis.

Georg Hoffstaetter (Cornell), Dejan Trbojevic (BNL)

Affiliation

Cornell and BNL

e-mailGeorg.Hoffstaetter@Cornell.edu, trbojevic@bnl.gov

Contact Person(s)Same as project leadersAffiliatione-mail4

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The Proton Power Upgrade Project at the Spallation Neutron
Source (SNS)Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting

United States of America
UpgradeThe Proton Power Upgrade Project at the Spallation Neutron Source (SNS) at
Oak Ridge National Laboratory (ORNL) will double the proton power capability
from 1.4 to 2.8 MW. This will be accomplished through an energy increase
from 1.0 to 1.3 GeV and a beam current increase from 26 to 38 mA. The energy
increase will be accomplished through the addition of 7 cryomodules to thelinear accelerator (Linac). The beam current increase will be supported byupgrading several radio- frequency systems in the normal-conducting sectionof the Linac. Upgrades to the accumulator ring injection and extraction regions
will accommodate the increase in beam energy. A new 2-MW-capable target
and supporting systems will be developed and installed. Conventional facility
upgrades include build-out of the existing klystron gallery and construction of atunnel stub to facilitate future beam transport to the second target station. The
project received approval to proceed with construction in October 2020.
Procurements are in progress, and some installation activities have alreadyoccurred. Most of the installation will take place during three outages in 2022-2023.
Yes
2018 April>95% of the items are contracted

Construction scheduled to start2020 October

Estimated Project Cost

$271.6M USD

Estimated Construction Duration
Type of Equipment to be Purchased

5 years
Superconducting RF cavities, cryomodules, high-power klystron-based RF
systems, beamline magnets, mercury targets, conventional facilities.

Project Leader(s)John Galambos, Project Director

Affiliation

Oak Ridge National Laboratory

e-mailgalambosjd@ornl.gov

Contact Person(s)Mark Champion, Project Manager

Affiliation

Oak Ridge National Laboratory

e-mailchampionms@ornl.gov

5

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Proton Power Upgrade Project
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)United States of America
Proton Power Upgrade project
Double the proton beam power from 1.4 MW to 2.8 MW at the Spallation Neutron
Source.
Yes
2018 Jan80%
2020 Oct.
272 M (USD)
4 years
Superconducting RF cryomodules, high power RF equipment

John Galambos

Affiliation

ORNL

e-mailjdg@ornl.gov

Contact Person(s)Mark Champion

Affiliation

ORNL

e-mailchampionms@ornl.gov

6

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Project Region:
ASIA

7

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Australian Synchrotron BRIGHT beamline expansion
Project Location

Australia

Project Type

UpgradeProject Description
Requirements List Available
Approval Date
Status of Contracting

An expansion of the Australian Synchrotron’s beamline suite, with 8 additional
beamlines and associated equipment.
Yes
Jan 01 2018
60% of the items are contracted

Construction scheduled to start

Jul 01 2019

Estimated Project Cost

120 M AUD

Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)8 years
Photon Beamlines –End stations, X-ray optics, Vacuum Vessels, X-BPMs, andassociated support equipment. Insertion Devices.

Michelle Jones-Lennon

Affiliation

ANSTO-Australian Synchrotrone-mailmichellj@ansto.gov.au

Contact Person(s)Michelle Jones-Lennon

Affiliation

ANSTO-Australian Synchrotrone-mailmichellj@ansto.gov.au

8

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Australian Synchrotron Operational Upgrades
Project Location

Australia

Project Type

UpgradeProject Description
Requirements List Available
Approval Date
Status of Contracting

In addition to the normal operations funding, this project is to maintain andupgrade many accelerator and beamline components at the Australian
Synchrotron.
NO
Jul 01 2016
Ongoing as needs arise

Construction scheduled to start

Oct 01 2016

Estimated Project Cost

50 M AUD

Estimated Construction Duration

10 years

Type of Equipment to be Purchased

Project Leader(s)RF hardware systems including klystrons and low level RF electronics, beamdiagnostics for linac, transfer lines, booster synchrotron and storage ring,
power amplifiers, feedback systems, power supplies.

Dr. Dean Morris

Affiliation

ANSTO-Australian Synchrotrone-maildeanm@ansto.gov.au

Contact Person(s)Dr. Rohan Dowd

Affiliation

ANSTO-Australian Synchrotrone-mailrohand@ansto.gov.au

9IPAC’22

China Spallation Neutron Source
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)Dongguan City, Guangdong Province,People's Republic of China
New Project
The CSNS facility is designed to provide multidisciplinary researchNo
Sep 03 2011
Completed construction, open to users
Oct 20 2011
1.86632 Billion CNY
6.5 years
a 80-MeV H- linac, a 1.6-GeV proton rapid cycling synchrotron (RCS),beamtransport lines, a solid tungsten target station, and 3 initial instruments for thepulsed spallation .Beam power on target is 100kW.

Hesheng Chen

Affiliation

Institute of High Energy Physics

e-mailchenhs@ihep.ac.cn

Contact Person(s)Lijun Jiang

Affiliation

Dongguan Campus, Institute of High Energy Physics

e-mailjianglj@ihep.ac.cn

10IPAC’22

Establishment of Heavy lon Medical Accelerator
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting

Republic of Korea
New Project
Original R&D project was changed to turn-key based one for heavy ion therapy
in Korea, where Seoul National University Hospital took over the project in 2019from KIRAMS.
Yes
Apr 01 2010
80% of the items are contracted

Construction scheduled to start

Dec 01 2022

Estimated Project Cost

250 M USD

Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)4 years
ECRIS for carbon and helium beam, RFQ+DTL, HI synchrotron, HEBT, scanning
irradiation system, accelerator control system, rotating gantry and other treatment
systemHong-Gyun Wu

Affiliation

Department of Radiation Oncology, Seoul Nat'l University Hospitale-mailwuhg@snu.ac.kr

Contact Person(s)Jong Min Park

Affiliation

Department of Radiation Oncology, Seoul Nat'l University Hospitale-mailjongminpark@snu.ac.kr

11

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HIAF
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)China
New Project
HALF :A fourth generation light source based on a diffraction limited storage
ring with energy of 2.2 GeV
Yes
Oct 11 2021
0% of the items are contracted
Aug 01 2022
2880Million (CNY)~ 5.4 years
optical elements, vacuum components, RF-equipment, beam diagnostics,
magnets, etc.

Donglai Feng

Affiliatione-mailContact Person(s)dlfeng@ustc.edu.cn

Donglai Feng

Affiliatione-maildlfeng@ustc.edu.cn

12IPAC’22

Heavy Ion Research Facility at Lanzhou
Project Location
Project Type

Project Description

China
Accelerator Improvement Project
The upgrade project of the HIRFL facility is to increase heavy ion beam power.
The existing facility consists of two cyclotrons (SFC and SSC) and two coolingstorage rings (CSRm and CSRe). In the upgrade project, a linac with the energyof 1.5 MeV/u will be made as the injector of SSC. The dipole power supply andseveral quadropoles power supplies of CSRm will be replaced. New vacuum
chambers will be installed at the injection and extraction sections of CSRm.
Some beam diagnostics will be improved. With the upgrade, the charge stateof Uranium beam in CSRm will be increased from 28+ to 72+. Correspondingly,
the extraction energy will be improved from 120 MeV/u to 500 MeV/u. The
project received approval to proceed with construction in 2019. The linac has
already installed except the last two DTL cavites. Most of installations will takeplace before 2023.

Requirements List Available

Yes

Approval Date2019

Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)>70% of the items are contracted
2021 Aug
20 M (CNY, linac is not included)
4 years
Vacuum chamber and pumps, quadrupols power supplies, electronics, RF
components

Hushan Xu

Affiliation

Institute of Modern Physics, Chinese Academy of Sciencese-mailhushan@impcas.ac.cn

Contact Person(s)Jiancheng Yang

Affiliation

Institute of Modern Physics, Chinese Academy of Sciencese-mailyangjch@impcas.ac.cn

13IPAC’22

High Intensity heavy-ion Acelerator Facility
Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting

China
New Project
HIAF is a new accelerator facility under constructed at the Institute of Modern
Physics (IMP) in China. The research mission of HIAF is to study interdisciplinary
on nuclear physics, nuclear astrophysics, atomic physics and heavy ion
applications. The facility consists of a superconducting ECR ion source (SECR),
a CW super-conducting ion linac (iLinac), a fast ramping booster synchrotron(BRing) and a high precision spectrometer ring (SRing). A fragment separator(HFRS) is used to connect BRing and SRing. Six experimental terminals will bebuilt at HIAF. The maximum magnetic rigidity is 34 Tm. The civil construction
was already started in December of 2018. The accelerator is under constructed
and planned to provide the first beam in 2025.
Yes
Dec 31 2015
~60% of items are contracted

Construction scheduled to start

Dec 23 2018

Estimated Project Cost

450 M (USD)

Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)7 years
Superconducting magnets, diagnostics, vacuum chamber, beam line magnets,
conventional facilities, electronics

Guoqing Xiao

Affiliation

Institute of Modern Physics, Chinese Academy of Sciencese-mailxiaogq@impcas.ac.cn

Contact Person(s)Jiancheng Yang

Affiliation

Institute of Modern Physics, Chinese Academy of Sciencese-mailyangjch@impcas.ac.cn

14IPAC’22

RAON
Project Location
Project Type
Project Description
Requirements List Available

Republic of Korea
New ProjectRare isotope and stable ion beam facility with 400-kW, 200- MeV/u (for uraniumbeam) driver linac and 70-MeV proton cyclotron as ISOL driver.
Yes

Approval Date

Dec 20 2011

Status of Contracting

Contracting

Construction scheduled to start

Dec 20 2011

Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)946 M USD (excluding site cost)
10 years
SC cavities, cryomodules, SC magnets (HTS, LTS), 28 GHz ECR ion source,
RFQ, solid state RF amplifiers, vacuum systems, control system

Myeun Kwon

Affiliation

Institute for Basic Sciencee-mailkwonm@ibs.re.kr

Contact Person(s)Dong-O Jeon

Affiliation

Institute for Basic Sciencee-mailjeond@ibs.re.kr

15

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RIBF upgrade project
Project Location

Japan

Project Type

UpgradeProject Description
Requirements List Available

This project aims at increasing the intensity of the radioactive isotope beams by
20 times more than what is available now at RIKEN RI Beam Factory (RIBF).
No

Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

10,000M YEN
8 years
Magnets, power supplies, rf amplifiers, vacuum system, beam diagnostics, andhigh-power beam dump

Project Leader(s)Hiroyoshi SAKURAI

Affiliation

RIKEN Nishina Centere-mailsakurai@ribf.riken.jp

Contact Person(s)Osamu KAMIGAITO

Affiliation

RIKEN Nishina Centere-mailkamigait@riken.jp

16

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Siam Photon Source-II (SPS-II) accelerator complex
Project Location
Project TypeThailandNew ProjectSiam Photon Source-II (SPS-II) accelerator complex is the second synchrotron
light source in Thailand. It consists of three main components: a 150 MeV injector
linac, a 3 GeV full energy booster synchrotron, and a 3 GeV electron storage ring.
The booster structure is a modified FODO lattice with defocusing quadrupole
fields combined in bending magnets. Circumference of the booster synchrotron
is 307 m. It is designed to share the same tunnel with the storage ring.

Project Description

The 3 GeV storage ring has a circumference of 321 m and the electron beamemittance of 0.9 nm-rad. The ring consists of 14 Double Triple Bend Achromat(DTBA) cells, resulting in 14 long and 14 short straights. Maximum stored beam
current will be 300 mA. Beam injection to the storage ring is executed with a
Pulsed Multipole magnet, which is designed based on the Non-Linear Kicker(NLK) magnet developed for BESSY-II.
The storage ring RF system has a frequency of 119 MHz with the accelerating
voltage of 2.2 – 3.6 MV. All the RF cavities are normal conducting and the RF
power is supplied by solid-state RF amplifiers together with Digital Low-Level RF(DLLRF) controllers. Third harmonic cavities (Landau cavities) will be installed tosuppress beam instabilities. Stainless steel is the preferred material for SPS-II
vacuum chambers.

Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)Yes
Jan 21 20192023
300M USD
7 years
150 MeV linear accelerator, RF system, beam diagnostics, vacuum components,
vacuum pumps, power supplies, insertion devices, injector magnets and control
instruments

Dr. Prapong Klysubun

Affiliation

Synchrotron Light Research Institute (SLRI)

e-mailpklysubun@slri.or.th

Contact Person(s)Porntip Sudmuang

Affiliation

Synchrotron Light Research Institute (SLRI)

e-mailporntip@slri.or.th

17

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Third RF station for storage ring of Taiwan Photon Source
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start

Thailand / Taiwan
UpgradeConstruct 3rd RF station including SRF cavity, transmitter and LLRF to support
more beam line operation under 500mA beam current
Yes
Jan 01 2018
90 % completed
Jan 01 2018

Estimated Project Cost

7 M USD

Estimated Construction Duration

5 years

Type of Equipment to be Purchased

Project Leader(s)500MHz KEKB-type SRF module,500MHz 320kW solid-state power amplifier,circulator, ferrite load, DLLRF system, vacuum components etc.

Mei-Hsia Chang

Affiliation

NSRRC

e-mailmhchang@nsrrc.org.tw

Contact Person(s)Same as Project Leader(s)Affiliatione-mail18

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Project Region:
EUROPE

19

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Advanced Rare Isotope Facility - ARIEL-II
Project Location

CanadaProject Type

UpgradeProject Description

Requirements List Available
Approval Date
Status of Contracting

ARIEL-II is the second stage of the rare isotope beam (RIB) production at
TRIUMF. The first stage, ARIEL-I, funded in 2010 delivered the ARIEL building
and a super-conducting cw-electron linear accelerator, designed to deliver 10mA
electron beams at 50MeV. An initial stage is operational to deliver beams at
30MeV. The second stage, ARIEL-II, will increase the scientific productivity by
exploiting the new electron accelerator in terms of final beam power (10 mA at
30 MeV) and reliability to produce a wider variety of exotic isotope species athigher intensities and to deliver multiple beams in parallel. The project comprises
a new target station for an intense 100 kW electron beam using photo fission
for rare isotope production, a new proton beam line for a 100 µA proton beamfrom the existing 520 MeV cyclotron to a new isotope production proton target
station in the ARIEL building. In addition, ARIEL-II comprises about 200 m of RIB
transport beam line and a new beam preparation and charge breeding system
CANREB, which has been completed. The ARIEL-I SRF e-linac completion
to its design specifications, the new driver beam transport lines and the newhigh-power target stations for the electron and proton beams are presently
under construction.
Yes
Oct 06 2016
70% of the items are contracted

Construction scheduled to start

Oct 01 2017

Estimated Project Cost

45 M CAD

Estimated Construction Duration

9 years

Type of Equipment to be Purchased

Project Leader(s)Target ion sources, EBIS, target hall infrastructure (shielding, remote handlingequipment etc.), beam line components and vacuum components, RF-equipment,
beam diagnostics, beamline magnets, EPICS controls.

Oliver Kester, Eric Guetre

Affiliation

TRIUMFe-mailokester@triumf.ca, eguetre@triumf.ca

Contact Person(s)Robert Laxdal

Affiliation

TRIUMFe-maillax@triumf.ca

20

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Diamond II
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting

United Kingdom
UpgradeUpgrade the linac, replace booster synchrotron and storage ringNo
Apr 01 2023
0% of the items are contracted

Construction scheduled to start

Apr 01 2023

Estimated Project Cost

140 M GBP

Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)5 years
beam diagnostics, controls equipment, front-ends, injection and extraction
elements, insertion devices, magnets, mechanical supports, power supplies,
RF-equipment, vacuum vessels and components etc.

Richard P. Walker

Affiliation

Diamond Light Source

e-mailrichard.walker@diamond.ac.uk

Contact Person(s)Affiliatione-mail21

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European Spallation Source (ESS)
Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost

Sweden
New project
The European Spallation Source (ESS) is a multi-disciplinary research facility
based on the world's most powerful neutron source. The unique capabilities ofthis new accelerator-driven facility will both greatly exceed and complement thoseof today's leading neutron sources, enabling new opportunities for researchers
across the spectrum of scientific discovery, including life sciences, energy,
environmental technology,
Yes
June 01 2014>95% of accelerator items for construction phase are contracted
June 01 2014
2.891 B EUR (2013)

Estimated Construction Duration

Construction phase 2013-2025, Initial Operations phase 2019-2025, SteadyState Operations phase 2026 onwards

Type of Equipment to be Purchased

RF modulators, RF power sources, vacuum equipment, power supplies, spareparts, consumables, services and materials related to installation, tooling and lifting

Project Leader(s)Kevin Jones (Director General), Mark Anthony (Project Director), Mirko Menninga(Head of Supply, Procurement and Logistics Division)

Affiliation

European Spallation Source

e-mailKevin.Jones@ess.eu, Mark.Anthony@ess.eu, Mirko.Menninga@ess.eu

Contact Person(s)Same as Project LeadersAffiliatione-mail22

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Future Circular Collider (FCC) Feasibility Study
Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start
Estimated Project Cost
Estimated Construction Duration

Type of Equipment to be Purchased

Project Leader(s)Switzerland and France
New Project
Investigating the technical and financial feasibility of a future hadron colider
at CERN with a centre-of-mass energy of at least 100 TeV and with anelectron-positron Higgs and electroweak factory as a possible first stage.
Complementing the placement and layout optimization, the feasibility study
includes the refined design of both colliders and their injector chains, along withtargeted R&D programmes to develop the needed accelerator technologies andthe technical infrastructure.
No; Product Breakdown Structure under development
2028 (expected)
R&D phase2030 (expected)
7,400 MCHF for civil engineering and technical infrastructure; 3,100 MCHF for
e+e- Z, W, H factory plus additional 1,100 MCHF for e+e- top factory; 17,500
MCHF for hadron collider following e+e≥ 10 years
Nb3Sn accelerator magnets with a field of about 16 T, SRF cavities with afrequency
in the 400-800 MHz range, efficient RF power sources, vacuum chambers
appropriate for high synchrotron radiation, advanced cryogenics, novel
manufacturing techniques, warm accelerator magnets, collimation system, etc.

Michael Benedikt

Affiliation

CERN

e-mailMichael.Benedikt@cern.ch

Contact Person(s)Same as Project Leader

Affiliatione-mail23

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High Luminosity LHC (also: HiLumi LHC, HL-LHC)
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting
Construction scheduled to start

Switzerland
Upgrade Project
https://hilumilhc.web.cern.ch/content/hl-lhc-project
https://project-hl-lhc-industry.web.cern.ch/
Yes
Nov 01 2013
Tendering Components and launching Series Production for new equipment
Jan 01 2016

Estimated Project Cost

989 M CHF (material cost) including R&D and in-kind contributions; Industrial
contracts are about 500 M CHF

Estimated Construction Duration

989 M CHF (material cost) including R&D and in-kind contributions; Industrial
contracts are about 500 M CHF

Type of Equipment to be Purchased

SC Magnets & components; SC RF cavities & components; Powering and controls
devices for Magnets and Cavities; Collimators & precision mechanics special
equipment; Vacuum equipment and beam diagnostics; Cryogenic plants andcryogenic equipment; SC links in MgB2 and High temperature superconductor
current leads; Large & precision mechanical tools; technical infrastructures,
manufacturing services.

Project Leader(s)Oliver Brüning

Affiliation

CERN

e-mailoliver. bruning@cern.ch

Contact Person(s)Hector Garcia Gavela

Affiliation

CERN

e-mailhector.garcia.gavela@cern.ch

24

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IFMIF-DONES
Project Location
Project Type
Project Description
Requirements List Available
Approval Date
Status of Contracting

Europe- Granada (Spain)
New Project
A fusion-like (deuteron beam on Li target) neutron source for nuclear fusionmaterials researchEngineering design available
2021-2022
Not yet started. Only engineering work under development

Construction scheduled to start

2021

Estimated Project Cost

600 M€

Estimated Construction Duration

8 years

Type of Equipment to be Purchased

Project Leader(s)The accelerator will be a 125 mA CW 40 MeV deuterons superconducting linac

Angel Ibarra

Affiliation

CIEMATe-mailangel.ibarra@ciemat.es

Contact Person(s)Angel Ibarra

Affiliation

CIEMATe-mailangel.ibarra@ciemat.es

25

IPAC’22

MYRRHA (phase 1 – Implementation)
Project Location
Project Type

Project Description

Requirements List Available
Approval Date
Status of Contracting

Belgium
New project
MYRRHA is designed as an Accelerator Driven System. In a first stage to a 600
MeV super-conducting linac, a 100 MeV proton linac will be constructed(until 2026). A connected proton target facility will serve for radio- isotope
production.
High level available, prototyping ongoingSep 07 2018
The present protoyping will gradually lead to industrial supplies in the coming
years.

Construction scheduled to start

Mar 01 2020

Estimated Project Cost

300 MEURO

Estimated Construction Duration
Type of Equipment to be Purchased

Project Leader(s)7 years
100 MeV proton linac consisting ofa 17 MeV injector with 15 copper CH-cavities
followed by a superconducting spoke linac with 60 single spoke cavities. A proton
target station is foreseen.

Hamid Aït Abderrahim

Affiliation

SCK CEN Belgian Nuclear Research Centre

e-mailSCK CEN Belgian Nuclear Research Centre

Contact Person(s)Adrian FabichAffiliation

SCK CEN Belgian Nuclear Research Centre

e-mailadrian.fabich@sckcen.be26

IPACC22

PARTICLE
ACCELERATORPROJECTSAND UPGRADESBOOKLET

June 12-17, 2022